Martin Cordiner, Alexander Thelen, Thibault Cavalie, Richard Cosentino, Leigh N Fletcher, Mark Gurwell, Katherine de Kleer, Yi-Jehng Kuan, Emmanuel Lellouch, Arielle Moullet, Conor Nixon, Imke de Pater, Nicholas Teanby, Bryan Butler, Steven Charnley, Stefanie Milam, Raphael Moreno, Mark Booth, Pamela Klaassen, Claudia Cicone, Tony Mroczkowski, Luca Di Mascolo, Doug Johnstone, Eelco van Kampen, Minju Lee, Daizhong Liu, Thomas Maccarone, Amelie Saintonge, Matthew Smith, Sven Wedemeyer
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引用次数: 0
摘要
对太阳系内的行星和小天体的研究是了解地球和其他行星的形成和演变的基础。对巨行星的成分和气象研究为了解最常观测到的系外行星的性质奠定了基础,而对陆地行星、卫星和彗星大气的光谱观测则为了解行星环境过去和现在的宜居性以及生命化学成分的可用性提供了洞察力。虽然以前和现有的(亚)毫米观测已经在这些领域取得了重大进展,但由于现有望远镜和干涉仪在动态范围、时空覆盖范围以及灵敏度方面的限制,进展受到了阻碍。在此,我们总结了阿塔卡马大孔径亚毫米波望远镜(AtLAST)设计中的一些关键行星科学用例,这是一个拟建的 50 米级单碟设施:(1) 更全面地描述行星风场和大气热结构,(2) 测量冰月大气和羽流的成分,(3) 探测新的、与天体生物学相关的气体并对彗星进行同位素勘测,(4) 进行协同、时间分辨测量以支持专门的行星际空间任务。这些科学案例所需的改进的空间覆盖范围(几弧分)、分辨率(~ 1.2'' - 12'')、带宽(几十千兆赫)、动态范围(~ 10 5)和灵敏度(~ 1 mK km s -1 )将使人们能够对行星环境的化学和物理学、前生物分子的起源以及行星系统的宜居性有新的认识。
Atacama Large Aperture Submillimeter Telescope (AtLAST) Science: Planetary and Cometary Atmospheres.
The study of planets and small bodies within our Solar System is fundamental for understanding the formation and evolution of the Earth and other planets. Compositional and meteorological studies of the giant planets provide a foundation for understanding the nature of the most commonly observed exoplanets, while spectroscopic observations of the atmospheres of terrestrial planets, moons, and comets provide insights into the past and present-day habitability of planetary environments, and the availability of the chemical ingredients for life. While prior and existing (sub)millimeter observations have led to major advances in these areas, progress is hindered by limitations in the dynamic range, spatial and temporal coverage, as well as sensitivity of existing telescopes and interferometers. Here, we summarize some of the key planetary science use cases that factor into the design of the Atacama Large Aperture Submillimeter Telescope (AtLAST), a proposed 50-m class single dish facility: (1) to more fully characterize planetary wind fields and atmospheric thermal structures, (2) to measure the compositions of icy moon atmospheres and plumes, (3) to obtain detections of new, astrobiologically relevant gases and perform isotopic surveys of comets, and (4) to perform synergistic, temporally-resolved measurements in support of dedicated interplanetary space missions. The improved spatial coverage (several arcminutes), resolution (~ 1.2″ - 12″), bandwidth (several tens of GHz), dynamic range (~ 10 5) and sensitivity (~ 1 mK km s -1) required by these science cases would enable new insights into the chemistry and physics of planetary environments, the origins of prebiotic molecules and the habitability of planetary systems in general.